Energy-saving ball mill based on diamond micro-powder processing

Abstract

The application relates to the field of micro-powder processing, and particularly discloses an energy-saving ball mill based on diamond micro-powder processing, which solves the problems of low efficiency of existing water body detection and incapability of high-efficiency multi-point rapid sampling detection, and the following scheme is proposed, which comprises a ball mill barrel shell, a feeding port, a discharging port, a support, a connecting beam rod, a mounting seat, an inner lining lattice plate, an outer cylinder, a sleeve ring, an annular rubber ring, an annular table, a driving assembly, a guide rail, an insertion block and an insertion slot, a linkage assembly is arranged on the outer cylinder, the linkage assembly is used for driving the insertion block and the insertion slot to be inserted when the push block slides, a cleaning brush one is connected to one end of the mounting seat away from the discharging port, a dredging assembly is further arranged on the outer cylinder, and the dredging assembly is used for dredging the inner lining lattice plate when the cleaning brush one is relative to the outer cylinder. The device can flexibly dredge the mesh holes of the inner lining lattice plate in the working state, guarantees the discharging efficiency, reduces the energy consumption, and the device is stable in overall operation.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of micro-powder processing, and particularly to an energy-saving ball mill based on diamond micro-powder processing. BACKGROUND

[0002] Diamond micro-powder refers to diamond particles with a particle size finer than 36 / 54 microns, including single-crystal diamond micro-powder and polycrystalline diamond micro-powder. In the industry, diamond micro-powder generally refers to single-crystal diamond micro-powder. The processing of diamond micro-powder is generally carried out by using a ball mill, and a lattice-type ball mill is used.

[0003] The principle of the ball mill is to make the grinding balls produce complex motion trajectories in the grinding tank through the movement of the planetary gear train, thereby fully grinding and mixing the diamond particles. The planetary ball mill is suitable for small-batch and high-precision diamond micro-powder processing. The grinding medium is usually made of materials with high hardness and good wear resistance, such as tungsten carbide, silicon nitride, and agate. Tungsten carbide grinding balls have extremely high hardness and wear resistance, and can effectively grind diamond particles, but the cost is relatively high. Silicon nitride grinding balls have good wear resistance and low density, which can reduce the energy consumption during grinding. Agate grinding balls have a delicate texture and are not easy to introduce impurities during grinding, but have relatively weak wear resistance and are suitable for processing diamond micro-powder with high purity requirements.

[0004] However, the existing lattice-type ball mill generally has a lattice liner at the discharge port end to discharge micro-powder particles that reach the specified particle size and below, and those that do not reach the specified particle size continue to be ground in the ball mill. The mesh content of such lattice liners is prone to jamming some micro-powder particles that do not meet the standard, resulting in blockage of the mesh of the lattice liner during long-term use, reducing the discharge efficiency, and causing micro-powder particles that meet the particle size standard to be jammed and continue to be ground, thereby increasing the energy consumption of the ball mill, but the lattice liner cannot be dredged in time during operation. Therefore, an energy-saving ball mill based on diamond micro-powder processing is proposed. SUMMARY

[0005] In order to overcome the shortcomings of the prior art, the present application proposes an energy-saving ball mill based on diamond micro-powder processing, which can efficiently dredge the mesh of the lattice liner of the lattice-type ball mill during operation, improve the discharge efficiency, and effectively reduce the energy consumption.

[0006] In order to solve the above technical problems, the basic technical scheme of the present application is as follows:

[0007] The energy-saving type ball mill based on diamond micro-powder processing, including ball mill barrel shell and the feed inlet and discharge outlet arranged at both ends thereof, the ball mill barrel shell is connected with a support on the side of the discharge outlet, and the support is connected with a connecting beam rod, one end of the connecting beam rod extends into the ball mill barrel shell, and a mounting seat is arranged at the extending end, a plurality of lining lattice plates are rotatably sleeved outside the mounting seat, a plurality of outer barrels are bolted outside the lining lattice plates, and sleeve rings are slidably sleeved at both ends of the outer barrels, an annular rubber ring is sleeved between each sleeve ring and one end of the outer barrel, and a ring table is sleeved outside the outer barrel;

[0008] A driving assembly is arranged on the ring table and used to drive the sleeve rings on both sides to move away from each other to extrude the annular rubber ring, a guide rail is further connected to the outer barrel, an insertion block is slidably connected to the guide rail, an insertion slot is formed in the inner wall of the ball mill barrel shell and matched with the insertion block, a linkage assembly is arranged on the outer barrel and used to drive the insertion block to be inserted into the insertion slot when the push block slides, a cleaning brush one is connected to the end of the mounting seat away from the discharge outlet, and a dredging assembly is further arranged on the outer barrel and used to dredge the lining lattice plates when the cleaning brush one moves relative to the outer barrel.

[0009] Preferably, the outer barrel is a H-shaped barrel, and guide rods one are arrayed and connected to one side of the two ends of the outer barrel, the sleeve ring is slidably sleeved on the outer side of the guide rod one, a driving control module is arranged at one end of the ball mill barrel shell, the inner wall of the ball mill barrel shell is paved with a lining plate layer, and the outer barrel is located on the inner side of the lining plate layer.

[0010] Preferably, a plurality of telescopic members one are arrayed and mounted at one end of the connecting beam rod extending into the ball mill barrel shell, a motor is mounted at one end of the telescopic member one away from the discharge outlet, and the output end of the motor away from the discharge outlet is connected with a disc, the mounting seat is sleeved in the disc, chuck racks are connected to both sides of the disc, each lining lattice plate is arrayed and sleeved on the outer side of the disc and located between the chuck racks on both sides and connected with the chuck racks through bolts, and the outer barrel is mounted on the outer side of the chuck racks through bolts.

[0011] Preferably, the driving assembly comprises a bidirectional telescopic member and a push plate, the bidirectional telescopic member is sleeved in the ring table and penetrates through both sides of the ring table, the push plate is symmetrically connected at the output ends on both sides of the bidirectional telescopic member, the push plate is in abutment with the sleeve ring in cooperation, and the outer side surface of the annular rubber ring is in abutment with the inner wall of the ball mill barrel shell.

[0012] Preferably, the linkage assembly comprises guide rod two, sliding seat, rotating plate two, the two sides of the ring table are symmetrically connected with guide rod two, the sliding seat is slidably arranged on the outer side of guide rod two, spring one is connected between the sliding seat and the ring table, and the spring one is arranged on the outer side of guide rod two, one end of the rotating plate two is rotatably connected with the sliding seat, and the other end is rotatably connected with the plug-in block.

[0013] Preferably, the end of the guide rod two away from the ring table is connected with a mounting plate, the guide rail is connected with the mounting plate, the sliding frame is slidably connected with the guide rail, and the plug-in block is connected with the sliding frame.

[0014] Preferably, the rotating plate one is rotatably connected with the sliding seat on the two sides of the ring table, and the rotating plate one on the two sides is rotatably connected with the clamping seat at one end close to each other, and the clamping seat is clamped with the cleaning brush two away from the outer cylinder.

[0015] Preferably, the linkage assembly comprises guide rod two, sliding seat, rotating plate two, the two sides of the ring table are symmetrically connected with guide rod two, the sliding seat is slidably arranged on the outer side of guide rod two, spring one is connected between the sliding seat and the ring table, and the spring one is arranged on the outer side of guide rod two, one end of the rotating plate two is rotatably connected with the sliding seat, and the other end is rotatably connected with the plug-in block.

[0016] Preferably, the rotating plate one is rotatably connected with the sliding seat on the two sides of the ring table, and the rotating plate one on the two sides is rotatably connected with the clamping seat at one end close to each other, and the clamping seat is clamped with the cleaning brush two away from the outer cylinder.

[0017] Preferably, the outer cylinder is connected with a plurality of guide rods three on the side close to the discharge port, the mounting bracket is slidably arranged on the outer side of the guide rod three, and the spring two is connected between the mounting bracket and the outer cylinder, and the spring two is arranged on the outer side of the guide rod three.

[0018] The beneficial effects of the present application are:

[0019] 1、the technical scheme of the present application can push the two sides of the push plate and the sleeve ring through the mutual far away of the bidirectional telescopic members in the driving assembly, further drive the sleeve ring on the two sides to slide away from each other, further extrude the annular rubber ring sleeved on the two ends of the outer cylinder, make the middle part of the annular rubber ring bulge, further abut against the inner wall of the ball mill cylinder, realize the sealing and sleeving of the inner wall of the ball mill cylinder, ensure that only the qualified diamond micro powder can pass through the mesh hole on the inner lining grid plate, and the mutual far away of the two push plates can also drive the plug-in block and the plug-in groove through the linkage assembly, realize the stable installation of the outer cylinder in the ball mill cylinder, and improve the stability of the equipment during operation.

[0020] 2、The technical scheme of the present application can cancel the insertion of the plug and the slot by driving the two side push plates to move close to each other, and the annular rubber ring resets to cancel the adhesion and resistance of the ball mill cylinder inner wall, at this time the outer cylinder is separated from the inner wall of the ball mill cylinder, and the mutual approach of the push block also pushes the two side slides to move close to each other and compresses the spring 1, thereby driving the rotating plate 1 to rotate, so that the clamping plate and the cleaning brush 2 gradually move away from the outer cylinder along the radial direction of the outer cylinder, and contact the inner wall of the ball mill cylinder, at this time the telescopic piece 1 is telescoped, and the motor is driven to realize the cleaning of the inner wall of the ball mill cylinder, avoiding the adhesion of powder on the inner wall of the ball mill in a long time, and the accumulation of blocks, affecting the grinding efficiency;

[0021] 3、The technical scheme of the present application can drive the outer cylinder to rotate by rotating the ball mill cylinder, but the mounting seat is rotatably sleeved with each inner lining lattice plate, so the mounting seat and the support plate thereon will be relatively stationary, at this time the top frame connected to the support plate will be in contact with the arc-shaped seat rotating to the highest position one by one, thereby pulling the slide rod to slide away from the discharge port, thereby driving the dredging plate to be inserted into the mesh to dredge the large particle size powder and the fine block in the mesh, and the action is limited to the inner lining lattice plate rotating to the highest position, so it will not affect the discharge of the low inner lining lattice plate, and can ensure that the powder with qualified particle size is discharged in time, thereby improving the grinding efficiency and reducing energy consumption. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 is a structural schematic view of the present application;

[0023] Figure 2 is a sectional view of the structure of the present application;

[0024] Figure 3 is a schematic view of the related structure of the support and the outer cylinder of the present application;

[0025] Figure 4 is a schematic view of the related structure of the outer cylinder of the present application;

[0026] Figure 5 is a sectional view of the related structure of the outer cylinder of the present application;

[0027] Figure 6 is Figure 5 is an enlarged view of A in FIG. 6;

[0028] Figure 7 is a structural schematic view of the driving assembly and the linkage assembly of the present application;

[0029] Figure 8 is a schematic view of the related structure of the guide rail of the present application;

[0030] Figure 9 is a schematic view of the structure in the outer cylinder of the present application;

[0031] Figure 10 It is the structural schematic view of the unclogging assembly of the application;

[0032] Figure 11 It is the left view structural schematic view of the inner lining lattice plate and chuck frame of the application;

[0033] Figure 12 It is the right view structural schematic view of the inner lining lattice plate and chuck frame of the application.

[0034] Explanation of reference signs:

[0035] 1, ball mill barrel; 2, drive control module; 3, feed inlet; 4, discharge outlet; 5, inner lining plate layer; 6, support; 7, connecting beam rod; 8, telescopic part one; 9, motor; 10, mounting seat; 11, disc; 12, chuck frame; 13, inner lining lattice plate; 14, outer barrel; 15, support plate; 16, cleaning brush one; 17, top frame; 18, guide rod one; 19, collar; 20, annular rubber ring; 21, ring table; 22, bidirectional telescopic part; 23, push plate; 24, guide rod two; 25, sliding seat; 26, spring one; 27, turning plate one; 28, clamping seat; 29, cleaning brush two; 30, mounting plate; 31, guide rail; 32, sliding frame; 33, plug block; 34, turning plate two; 35, sliding hole; 36, sliding rod; 37, arc-shaped seat; 38, mounting frame; 39, unclogging plate; 40, guide rod three; 41, spring two; 42, mesh; 43, insertion slot. DETAILED DESCRIPTION

[0036] The following will be combined with the drawings Figure 1 to the drawings Figure 12 The technical solutions in the embodiments of the application are clearly and completely described. Obviously, the described embodiments are only part of the embodiments of the application, not all the embodiments. Based on the embodiments in the application, all other embodiments obtained by those skilled in the art without creative labor are within the protection scope of the application.

[0037] Embodiment one:

[0038] As Figures 1-9As shown, the present application discloses an energy-saving ball mill based on diamond powder processing, which comprises a ball mill barrel 1 and a feed inlet 3 and a discharge outlet 4 arranged at both ends thereof, the ball mill barrel 1 is connected with a support 6 at one side of the discharge outlet 4, and the support 6 is connected with a connecting beam 7, one end of the connecting beam 7 extends into the ball mill barrel 1, and a mounting seat 10 is arranged at the extending end, a plurality of inner lining lattice plates 13 are rotatably sleeved on the outer side of the mounting seat 10, a plurality of outer cylinders 14 are bolted on the outer side of the plurality of inner lining lattice plates 13, and a plurality of sleeve rings 19 are slidably sleeved at both ends of the outer cylinder 14, an annular rubber ring 20 is sleeved between each sleeve ring 19 and one end of the outer cylinder 14, and an annular table 21 is sleeved on the outer side of the outer cylinder 14.

[0039] Wherein, the two ends of the annular rubber ring 20 are respectively connected to one end of the outer cylinder 14 and the outer side of the corresponding sleeve ring 19, and have a preliminary bulge, so that when the sleeve ring 19 approaches the annular rubber ring 20 towards the outer cylinder 14, the sleeve ring 19 is extruded to intensify the bulge, so as to realize the fit resistance with the inner wall of the ball mill barrel 1, thereby sealing and ensuring that only the diamond powder with qualified particle size after processing can be discharged through the inner lining lattice plate 13.

[0040] The annular table 21 is provided with a driving assembly for driving the two sleeve rings 19 to move away from each other to extrude the annular rubber ring 20, the outer cylinder 14 is further connected with a guide rail 31, the guide rail 31 is slidably connected with an insertion block 33, the inner wall of the ball mill barrel 1 is provided with an insertion groove 43 matched with the insertion block 33, the outer cylinder 14 is provided with a linkage assembly for driving the insertion block 33 to be inserted into the insertion groove 43 when the push plate 23 slides, the mounting seat 10 is connected with a cleaning brush 16 at one end away from the discharge outlet 4, and the outer cylinder 14 is further provided with a dredging assembly for dredging the inner lining lattice plate 13 when the cleaning brush 16 moves relative to the outer cylinder 14.

[0041] The outer cylinder 14 is a H-shaped cylinder, and the two ends of the outer cylinder 14 are connected with guide rods 18 on one side, the sleeve ring 19 is slidably sleeved on the outer side of the guide rod 18, the ball mill barrel 1 is provided with a drive control module 2 at one end of the feed inlet 3, the inner wall of the ball mill barrel 1 is paved with an inner lining plate layer 5, and the outer cylinder 14 is located on the inner side of the inner lining plate layer 5, wherein the inner lining plate layer 5 is formed by splicing and paving the existing ball mill lining plate, and the drive control module 2 is the drive control component of the existing ball mill.

[0042] The connecting beam rod 7 extends to one end of the ball mill cylinder shell 1, and a plurality of telescopic members I 8 are arranged on the end away from the discharge port 4. The telescopic member I 8 is provided with a motor 9 at the end away from the discharge port 4, and the output end of the motor 9 away from the discharge port 4 is connected with a disc 11. The mounting seat 10 is sleeved on the disc 11, and the disc 11 is connected with chuck racks 12 on both sides. Each inner lining lattice plate 13 is arranged on the outer side of the disc 11 and is located between the chuck racks 12 on both sides and connected with the chuck racks 12 through bolts. The outer cylinder 14 is installed on the outer side of the chuck racks 12 through bolts.

[0043] As shown in Figure 7 and 8 , each inner lining lattice plate 13 is arranged on the outer side of the disc 11, and the chuck racks 12 arranged on the axial both sides of the disc 11 can limit each inner lining lattice plate 13 and install each inner lining lattice plate 13 on it through bolts. At the same time, the disc 11 and the chuck racks 12 are sleeved on the outer side of the mounting seat 10 through bolts, and the chuck racks 12 on both sides are sleeved on the inner wall of the outer cylinder 14 through bolts. In this way, the whole can be conveniently disassembled and assembled, that is, when the inner lining lattice plate 13 needs to be replaced due to long-term use and wear, it can also be flexibly disassembled and replaced.

[0044] Example two:

[0045] As shown in Figures 1-10 , the application discloses a collision-resistant platform of an ocean fishing boat with a protection function, and compared with example one, the structure of a driving assembly is disclosed.

[0046] The driving assembly comprises a bidirectional telescopic member 22 and a push plate 23. The bidirectional telescopic member 22 is sleeved in the ring table 21 and penetrates through both sides of the ring table 21. The push plate 23 is symmetrically connected at the output end on both sides of the bidirectional telescopic member 22. The push plate 23 is in abutment with the sleeve ring 19. The outer side surface of the annular rubber ring 20 is in abutment with the inner wall of the ball mill cylinder shell 1.

[0047] In this way, the bidirectional telescopic member 22 is elongated to drive the push plates 23 on both sides to move away from each other, so that the sleeve rings 19 on both sides are pushed away from each other and respectively extrude the annular rubber rings 20 on the respective sides, so that the annular rubber rings 20 are raised and abut against the inner wall of the ball mill cylinder shell 1 to realize sealing.

[0048] Example three:

[0049] As shown in Figures 1-10 , the application discloses a collision-resistant platform of an ocean fishing boat with a protection function, and compared with example two, the structure of a linkage assembly is disclosed.

[0050] The linkage assembly includes a second guide rod 24, a slide block 25, and a second rotating plate 34. The second guide rod 24 is symmetrically connected to both sides of the ring platform 21. The slide block 25 is slidably sleeved on the outside of the second guide rod 24. A first spring 26 is connected between the slide block 25 and the ring platform 21, and the first spring 26 is sleeved on the outside of the second guide rod 24. One end of the second rotating plate 34 is rotatably connected to the slide block 25, and the other end is rotatably connected to the insert block 33.

[0051] When the collars 19 on both sides are pushed away from each other, the push plate 23 will also move away from the slide block 25. The slide blocks 25 on both sides of the ring platform 21 can move away from each other under the action of the spring 26, thereby pushing the rotating plate 34 to rotate and causing the insert block 33 to move along the guide rail 31 away from the axis of the outer cylinder 14. This allows the insert block 33 to be gradually inserted into the slot 43, ensuring that the outer cylinder 14 can be stably installed on the inner wall of the ball mill shell 1 while being sealed by the annular rubber ring 20.

[0052] The end of the guide rod 24 away from the ring platform 21 is connected to the mounting plate 30. The guide rail 31 is connected to the mounting plate 30. The slide frame 32 is slidably connected to the guide rail 31. The insert block 33 is connected to the slide frame 32, which can ensure the stable sliding of the insert block 33.

[0053] Rotating plates 27 are rotatably connected to the slides 25 on both sides of the ring platform 21. The rotating plates 27 on both sides are rotatably connected to a retainer 28 at one end. A cleaning brush 29 is installed on the side of the retainer 28 away from the outer cylinder 14. This allows the annular rubber ring 20 to rebound and cancel the seal when the bidirectional telescopic component 22 retracts, and the insert block 33 separates from the slot 43. At the same time, the push plate 23 will drive the slides 25 on both sides to move closer to each other. Then, through the rotation of the rotating plates 27, the retainer 28 and the cleaning brush 29 will slide radially along the outer cylinder 14 toward the inner wall of the ball mill shell 1 until they are in contact with the inner wall. At this time, with the extension and retraction of the telescopic component 8 and the drive of the motor 9, the outer cylinder 14 can slide axially along the ball mill shell 1 and rotate at the same time to clean the inner wall of the ball mill shell 1. This prevents the powder from adhering to the inner wall of the ball mill and agglomerating into clumps during long-term use, which would affect the grinding efficiency.

[0054] Example 4:

[0055] like Figures 1-12 As shown, the present invention discloses a collision-resistant platform for ocean-going fishing vessels with protective functions. Compared with Embodiment 3, this embodiment discloses the structure of the dredging component.

[0056] The dredging assembly comprises a top frame 17, a sliding hole 35, a sliding rod 36, an arc-shaped seat 37, a mounting bracket 38, a dredging plate 39 and a mesh hole 42. The top frame 17 is connected to the cleaning brush 16. The sliding hole 35 is arranged through the two sides of the outer cylinder 14. The sliding rod 36 is slidably arranged in the sliding hole 35, and the two ends of the sliding rod 36 extend to the two outer sides of the outer cylinder 14. The arc-shaped seat 37 is connected to one end of the sliding rod 36 away from the discharge port 4 and abuts against the top frame 17 to slide. The mounting bracket 38 is connected to one end of the sliding rod 36 close to the discharge port 4. The mesh hole 42 is arranged in the inner lining lattice plate 13. The dredging plate 39 is connected to the mounting bracket 38 and slides in the mesh hole 42.

[0057] The mounting seat 10 is connected with a support plate 15. The cleaning brush 16 is arranged on one side of the support plate 15 close to the inner lining lattice plate 13. The top frame 17 is connected to one side of the support plate 15 away from the inner lining lattice plate 13. A plurality of guide rods three 40 are arranged on one side of the outer cylinder 14 close to the discharge port 4. The mounting bracket 38 is slidably arranged outside the guide rods three 40. The spring two 41 is arranged between the mounting bracket 38 and the outer cylinder 14 and outside the guide rods three 40.

[0058] When the ball mill cylinder 1 rotates, the outer cylinder 14 can rotate with the ball mill cylinder 1. However, the mounting seat 10 is rotatably arranged with the inner lining lattice plate 13. Therefore, the mounting seat 10 and the support plate 15 thereon will not move. At this time, the top frame 17 connected to the support plate 15 will abut against the arc-shaped seat 37 rotating to the highest position, thereby pulling the sliding rod 36 to slide away from the discharge port 4. The dredging plate 39 can be inserted into the mesh hole 42 to dredge the large-particle-size powder and the caked fine powder possibly blocked in the mesh hole 42. The effect is limited to the inner lining lattice plate 13 rotating to the highest position, so as not to affect the discharge of the lower inner lining lattice plate 13. The powder with qualified particle size can be discharged in time, so as to improve the grinding efficiency and reduce the energy consumption.

[0059] According to the disclosure and teaching of the above description, those skilled in the art of the present application can also make changes and modifications to the above embodiments. Therefore, the present application is not limited to the specific embodiments disclosed and described above. Some modifications and changes of the present application should also fall within the protection scope of the claims of the present application. In addition, although some specific terms are used in the present specification, these terms are only for convenience of description and do not constitute any limitation on the present application.

Claims

1. An energy-saving ball mill based on diamond micro-powder processing, comprising a ball mill cylinder shell (1) and a feed inlet (3) and a discharge outlet (4) arranged at both ends thereof, the ball mill cylinder shell (1) is connected with a support (6) on one side of the discharge outlet (4), and the support (6) is connected with a connecting beam rod (7), characterized in that, One end of the connecting beam (7) extends into the ball mill shell (1) and is provided with a mounting base (10) at the extended end. Multiple inner lining grid plates (13) are rotatably mounted on the outer side of the mounting base (10). An outer cylinder (14) is bolted on the outer side of the multiple inner lining grid plates (13). Both ends of the outer cylinder (14) are slidably fitted with collars (19). An annular rubber ring (20) is fitted between each collar (19) and one end of the outer cylinder (14). An annular platform (21) is fitted on the outer side of the outer cylinder (14). A drive assembly is provided on the ring platform (21). The drive assembly is used to drive the collars (19) on both sides to move away from each other and squeeze the annular rubber ring (20). A guide rail (31) is also connected to the outer cylinder (14). A plug (33) is slidably connected on the guide rail (31). A slot (43) is opened on the inner wall of the ball mill shell (1) to cooperate with the plug (33). A linkage assembly is provided on the outer cylinder (14). The linkage assembly is used to drive the plug (33) to be inserted into the slot (43) when the push plate (23) slides. A cleaning brush (16) is connected to the end of the mounting seat (10) away from the discharge port (4). A dredging assembly is also provided on the outer cylinder (14). The dredging assembly is used to dredge the inner lining grid plate (13) when the cleaning brush (16) is relative to the outer cylinder (14). The unblocking assembly includes a top frame (17), a sliding hole (35), a sliding rod (36), an arc-shaped seat (37), a mounting bracket (38), an unblocking plate (39), and a mesh (42). The top frame (17) is connected to the cleaning brush (16). The sliding hole (35) is opened through the ring platform (21) and both sides of the outer cylinder (14). The sliding rod (36) is slidably sleeved in the sliding hole (35), and both ends of the sliding rod (36) extend to the outer cylinder. On both sides of (14), the arc-shaped seat (37) is connected to the end of the slide rod (36) away from the discharge port (4) and slides against the top frame (17). The mounting bracket (38) is connected to the end of the slide rod (36) near the discharge port (4). The mesh (42) is opened on the inner lining grid plate (13). The unblocking plate (39) is connected to the mounting bracket (38) and slides in the mesh (42). A bracket plate (15) is connected to one side of the mounting base (10), the cleaning brush (16) is installed on the side of the bracket plate (15) close to the inner lining grid plate (13), and the top frame (17) is connected to the side of the bracket plate (15) away from the inner lining grid plate (13). The outer cylinder (14) is connected in an array with multiple guide rods (40) on the side near the discharge port (4). The mounting bracket (38) is slidably sleeved on the outside of the guide rods (40). A spring (41) is connected between the mounting bracket (38) and the outer cylinder (14), and the spring (41) is sleeved on the outside of the guide rods (40). The rotation of the ball mill shell (1) can drive the outer cylinder (14) to rotate as well. At this time, the top frame (17) connected to the support plate (15) will contact the arc-shaped seat (37) that has rotated to the highest position one by one, thereby pulling the slide rod (36) to slide away from the discharge port (4), thereby driving the unblocking plate (39) to be inserted into the mesh (42) to unblock the large-diameter powder and agglomerated micro particles that may be blocked in the mesh (42). At the same time, its function is limited to the inner lining grid plate (13) that has rotated to the highest position, and will not affect the discharge of the inner lining grid plate (13) at the lower position.

2. The energy saving ball mill based on diamond micro-powder processing according to claim 1, characterized in that, The outer cylinder (14) is an I-shaped cylinder, and the two ends of the outer cylinder (14) are connected to each other in an array on one side. The collar (19) is slidably sleeved on the outer side of the guide rod (18). The ball mill shell (1) is provided with a drive control module (2) at one end of the feed inlet (3). The inner wall of the ball mill shell (1) is lined with an inner lining plate layer (5), and the outer cylinder (14) is located inside the inner lining plate layer (5).

3. The energy saving ball mill based on diamond micro-powder processing according to claim 1, characterized in that, The connecting beam (7) extends into the ball mill shell (1) and is equipped with an array of multiple telescopic components (8). The telescopic component (8) is equipped with a motor (9) at the end away from the discharge port (4), and the output end of the motor (9) away from the discharge port (4) is connected to a disc (11). The mounting base (10) is installed and fitted inside the disc (11). Both sides of the disc (11) are connected to chuck frames (12). Each of the inner lining grid plates (13) is arranged and fitted on the outside of the disc (11) and is located between the two chuck frames (12) and connected to the chuck frames (12) by bolts. The outer cylinder (14) is installed on the outside of the chuck frame (12) by bolts.

4. The energy saving ball mill based on diamond micro-powder processing according to claim 1, characterized in that, The drive assembly includes a bidirectional telescopic component (22) and a push plate (23). The bidirectional telescopic component (22) is fitted inside the ring platform (21) and passes through both sides of the ring platform (21). The push plate (23) is symmetrically connected to the output ends on both sides of the bidirectional telescopic component (22). The push plate (23) and the collar (19) cooperate and abut against each other. The outer side of the annular rubber ring (20) is in contact with the inner wall of the ball mill shell (1).

5. An energy-saving ball mill based on diamond micron powder processing according to claim 1, characterized in that, The linkage assembly includes a second guide rod (24), a slide (25), and a second rotating plate (34). The second guide rod (24) is symmetrically connected to both sides of the ring platform (21). The slide (25) is slidably sleeved on the outside of the second guide rod (24). A first spring (26) is connected between the slide (25) and the ring platform (21), and the first spring (26) is sleeved on the outside of the second guide rod (24). One end of the second rotating plate (34) is rotatably connected to the slide (25), and the other end is rotatably connected to the insert (33).

6. An energy-saving ball mill based on diamond micron powder processing according to claim 5, characterized in that, The end of the second guide rod (24) away from the ring platform (21) is connected to a mounting plate (30), the guide rail (31) is connected to the mounting plate (30), a sliding frame (32) is slidably connected to the guide rail (31), and the insert (33) is connected to the sliding frame (32).

7. An energy-saving ball mill based on diamond micron powder processing according to claim 5, characterized in that, Rotating plates (27) are rotatably connected to the sliding seats (25) on both sides of the ring platform (21). The rotating plates (27) on both sides are rotatably connected to a card holder (28) at one end close to each other. A cleaning brush (29) is installed on the side of the card holder (28) away from the outer cylinder (14).

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